XP0431500L

Overview

The Panasonic XP04315 is a composite transistor array containing one NPN and one PNP silicon epitaxial planar transistor within an SMini6-G1 package. It features built-in bias resistors with a nominal value of 10 kΩ (±30%). The device supports a maximum collector current of 100 mA and a collector-emitter voltage of 50 V for both elements. Total power dissipation is rated at 150 mW. Transition frequencies are specified at 150 MHz for the NPN element and 80 MHz for the PNP element.

Feature Summary

• Integrates two separate transistors into a single surface-mount package to reduce mounting area.
• Includes built-in base resistors to simplify digital circuit design and assembly.

Applications

• Digital logic circuits
• General electronic equipment
• Office equipment

Procurement Notes

Verify component status before procurement as this part may be discontinued or in maintenance phase. Consult official manufacturer lifecycle documentation for availability confirmation. Ensure ordering suffixes match required packaging formats. Validate RoHS compliance requirements against specific project standards prior to finalizing supply chain agreements.

Selection Notes

Select this component when space-constrained designs require paired NPN/PNP switching with integrated biasing. Verify that the 10 kΩ internal resistor aligns with target drive currents. Confirm thermal management capabilities meet the 150 mW total dissipation limit under expected ambient temperature conditions.

Part Context

This component belongs to the XP series of composite transistors designed for general-purpose digital applications. It serves as a compact alternative to discrete transistor pairs, offering reduced board space and simplified layout requirements for standard electronic equipment and communication instruments.

Replacement Considerations

Check for direct pin-compatible replacements from the same manufacturer family. Verify that substitute components maintain identical resistor ratios and transition frequencies to ensure circuit performance parity without redesign.